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Berry, Betsy; Merkel, Graceann; Uerkwitz, Janell – Theory Into Practice, 2023
In this article, we explore Terry Wood's participation in the Purdue Problem-Centered Mathematics Curriculum Project, along with the rich and enduring personal and professional friendships that she built with the classroom teachers who were so important to the project. We highlight connections between these working relationships and the research…
Descriptors: Theory Practice Relationship, Problem Based Learning, Mathematics Curriculum, College School Cooperation
Indiana Department of Education, 2018
As one of the national leaders in innovative public education strategies focused on future talent development, Indiana is positioned to create a sustainable, collaborative strategy for K-12 Science, Technology, Engineering, and Mathematics (STEM) instruction, curriculum, and career exploration and exposure. To provide a comprehensive, coordinated,…
Descriptors: Strategic Planning, Educational Planning, STEM Education, Elementary Secondary Education
Hartman, Pamela; Renguette, Corinne; Seig, Mary Theresa – Interdisciplinary Journal of Problem-based Learning, 2018
We designed a professional development (PD) teacher-mentor program that used problem-based learning (PBL) to accomplish two goals. First, teachers explored how PBL could be used effectively in their classrooms to change the way they think about teaching to include literacy development in content areas. Second, PBL was the basis for PD training to…
Descriptors: Multicultural Education, Problem Based Learning, Literacy, Mentors
Haynes, Ray K.; Cho, Yonjoo – Educational Media and Technology Yearbook, 2013
This chapter features Indiana University's Instructional Systems Technology (IST) department. It highlights current theory and research that form the basis of improving learning and performance in diverse contexts. The contributions of professors Boling, Bonk, Brush, Cho, Frick, Glazewski, Haynes, and Reigeluth underscore IST's past, present, and…
Descriptors: Universities, Departments, Schools of Education, College Faculty
Riek, L. D. – IEEE Transactions on Education, 2013
This paper describes a newly designed upper-level undergraduate and graduate course, Autonomous Mobile Robots. The course employs active, cooperative, problem-based learning and is grounded in the fundamental computational problems in mobile robotics defined by Dudek and Jenkin. Students receive a broad survey of robotics through lectures, weekly…
Descriptors: Robotics, Active Learning, Cooperative Learning, Problem Based Learning
Weiland, Ingrid – Science and Children, 2011
Problem-based learning (PBL) is one approach to teaching science that supports the notion that students construct knowledge within contextual settings, and that critical thinking and application are best fostered within these realistic contexts. In other words, learning activities are best applied when they are authentic or embedded in real-life…
Descriptors: Problem Based Learning, Science Instruction, Elementary School Science, Food
Long, Christian – Learning & Leading with Technology, 2012
Design thinking is about using design to improve the human experience. It combines collaboration, systems thinking, and a balance of creative and analytical habits. It also fuels what the students want for themselves: making an impact on the real world in real time and having adults take their passions seriously. The process essentially comes down…
Descriptors: Feedback (Response), Systems Approach, Design, High School Students
Ryan, Walter F. – 1997
This collection of activities demonstrates how the study of elementary mathematics can be extended beyond the school and involve teachers and students in investigative, problem-based experiences. The activities include topics in geometry, concept of number, algebra, measurement, graphing, statistics, and probability, and are organized into five…
Descriptors: Algebra, Arithmetic, Concept Formation, Educational Strategies
Hjalmarson, Margret; Diefes-Dux, Heidi A.; Bowman, Keith; Zawojewski, Judith S. – Journal of STEM Education: Innovations and Research, 2006
We have designed model-development sequences using a common context to provide authentic problem-solving experiences for first-year students. The model-development sequence takes a model-eliciting activity a step further by engaging students in the exploration and adaptation of a mathematical model (e.g., procedure, algorithm, method) for solving…
Descriptors: Problem Solving, Learning Experience, College Freshmen, Mathematical Models